an examination of pre-service teachers‘ …further, lesson planning activities will help teachers...
TRANSCRIPT
Journal of Education and Training Studies
Vol. 7, No. 3; March 2019
ISSN 2324-805X E-ISSN 2324-8068
Published by Redfame Publishing
URL: http://jets.redfame.com
1
An Examination of Pre-Service Teachers‘ Competencies in Lesson Planning
Serhat Süral
Correspondence: Serhat Süral, Pamukkale University, Faculty of Education, Department of Curriculum and Instruction,
Denizli Turkey.
Received: December 24, 2018 Accepted: January 8, 2019 Online Published: January 18, 2019
doi:10.11114/jets.v7i3.3902 URL: https://doi.org/10.11114/jets.v7i3.3902
Abstract
This study concerns the investigation of pre-service teachers‘ competencies in lesson planning from different
perspectives. In this respect, it is intended to develop a roadmap to figure out the pre-service teachers‘ competency
levels in lesson planning pertaining to a four-year- education program. The study was designed as a quantitative study
and the general screening model was used. This model is designed with the relational screening model. The study
population comprises of 3rd grade and senior students majoring in classroom, preschool, science, social sciences,
mathematics and Turkish language teaching departments at Pamukkale University in the 2018-2019 academic year.
―The Competency Scale for Lesson Planning‖ developed by the researcher attempted to determine pre-service teachers‘
competencies in lesson planning. Considering reliability and validity levels of the scale, this scale can also be
administered to different sample groups. The results denoted that pre-service teachers have an optimal level of
competency in lesson planning.
Keywords: lesson plan, competency, factor analysis, theoretical competency, practical competency
1. Introduction
Plan is a template that consists of diagrams or steps used to achieve a goal. More specifically, it is a draft which provides
a framework about what, when, why and how to teach or a written document that explains teachers‘ course activities. The
fundamental objective of the instructional planning is to enhance the quality of the instruction and the impact of the
instructional program in practice. Planning enables teachers to systematically organize various learning tools and use
them regularly. The instruction program helps teachers monitor their own teaching activities and identify how they affect
the teaching process. In other words, it supports the reflective teacher role. Plan can be employed as a method to identify
which instructional activities will be chosen and why and how they will be implemented and which supplementary and
complimentary resources and tools will be used and how the success gained will be measured. In this respect, all these
mentioned objectives are predetermined on a paper through a lesson plan (Demirel and Yağcı, 2003).
As the first stage of the teaching process, lesson planning also determines the next stages of the teaching. To achieve
predetermined goals in a set timeline, it is necessary to organize the works to be performed, timetable of activities and the
resources to be used (Vural, 2006). In addition to that, preparing a lesson plan is a duty for teachers in terms of
professional responsibility and legislation. ―Directive on Planned Execution of Education and Training Studies‖
published in the Journal of the Communique No: 2551 by Ministry of National Education underlines the necessity,
benefits and principles of the preparing a lesson planning. Consequently, preparing a lesson plan has officially become
mandatory.
Senemoglu (2003) stresses out following three functions of a lesson planning: emotionally boosting learners‘
self-confidence, organizing instructional elements to be used for learning, enabling instructors to monitor, evaluate and
fix their teaching activities, in other words, helping instructors adopt reflective thinking. Thanks to a planned instruction
process, teachers will feel self-confident and easily handle unexpected occasions in the classroom environment by
behaving calm and easy. Since a lesson plan is composed of various phases, the instruction will be fulfilled systematically,
thereby minimizing class management issues. Further, lesson planning activities will help teachers comprehend the
student, instruction methods, tools and methods and evaluation concerning the next instruction process.
Bilen (2002) emphasizes the importance of preparing a detailed lesson plan in terms of enhancing the quality of the
teaching. In a similar vein, Ercoşkun; Nalçacı; Kılıç (2004) assert that teachers should be encouraged to consider their role,
how and why they perform in the education and teaching process so that an effective lesson planning can be ensured.
Student-cantered lesson plans guide teachers to conduct an effective educational and instructional activities. According to
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
2
Driscoll and Freiberg (1992), lesson planning makes the instruction more purposeful and effective. Conducting
researches on how teachers identify their instructional objectives in lesson planning as well as their decision-making
processes and strategy formulation, Zahorik argues that specifying objectives and in-class activities are fundamental parts
of an effective instruction. Eventually, an unplanned lesson results in ineffective and purposeless instruction.
Senemoglu (2005) notes that the success of the teaching process depends greatly upon the high quality lesson
planning. Lesson planning has basically three functions throughout the instruction process: first, it emotionally boosts
learners‘ self-confidence, second, it organizes instructional elements to be used for learning, third and last, it
enables instructors to monitor, evaluate and fix their teaching activities, in other words, help them adopt reflective
thinking. Likewise, Tan; Kayabaşı; Erdoğan (2002) highlight that lesson planning boosts teacher performance and
provides an appropriate learning environment, thereby fulfilling educational goals and increasing student engagement.
Küçükahmet (2005) stresses out instructional planning encourages teachers to consider what their role are, how and why
they perform during education and teaching process so that an effective lesson planning can be ensured.
According to the sixth provisions of Directive of Ministry of National Education on ―Planned Execution of Education and
Training Studies‖ published in the Journal of the Communique of MoNE (Ministry of National Education) in 2008, ―In
educational institutions, teachers need to be aware that they are legally obligated to fulfill lesson preparation. In this
respect, lesson preparation is a necessity in terms of education. Education and teaching is a progressive work that needs to
be addressed in a rigorous and systematic manner. The teacher should pay a considerable attention to lesson planning and
lesson preparation in order to achieve an efficient and effective education-teaching process. Moreover, regulations of
preschool education, primary education, secondary education, vocational and technical education and non-formal
education institutions and their education-teaching programs emphasize that instructional activities need to be
implemented in a planned and systematic way.‖
A plenty of studies underline the importance of preparing a lesson plan and planning for teachers‘ classroom performance.
Similarly, teaching programs allow pre-service teachers to improve their teaching skills since they will have the
opportunity to conduct actual or almost actual teaching practices as well as attending theoretical courses (Beeth &
Adadan, 2006; Goodlad, 1991; Meade 1991; Peker, 2009; Roth & Tobin, 2001; Sachs, 1997; Sumpter, 1995; Tigchelaar &
Korthagen, 2004).
The significance of the study is to figure out the pre-service teachers‘ competency levels in lesson planning pertaining to a
four-year- education program and correspondingly to develop a roadmap. Also, this study seeks to examine the
competency levels of the pre-service teachers studying at education faculties in the 2018-2019 academic year. The present
study aims to analyze the competency levels of the pre-service teachers from education faculties in the 2018-2019
academic year in terms of different perspectives. Accordingly, answers to the following questions were sought:
1. What is the level of the factor analysis values pertaining to ―The Competency Scale for Lesson Planning‖?
2. What is the competency level of the pre-service teachers in lesson planning?
3. Do pre-service teachers‘ competency levels in lesson planning significantly vary according to gender,
department, and grade level variables?
2. Method
This section provides methodological aspects of the study. In this sense, the research model, the study population and the
sample size, the validity and reliability study of data gathering tools and other tests used for data analysis were presented.
2.1 Research Model
The study was designed as a quantitative study and the general screening model was used. This model is designed with the
relational survey model. The relational survey models are research models which aim to determine the presence and the
level of change variance between two or more variable (Gay, 1987; Gall, J.; Gall, M.D. and Borg, 1999).
2.2 Study Population and Sample Size
The study population comprises of 3rd grade and senior students majoring in classroom, preschool, science teaching, and
social sciences teaching departments at Pamukkale University in the 2018-2019 academic year. Since the number of
students majoring in these mentioned departments is almost equal to each other, these four departments were selected to
identify validity and reliability coefficients of the study more appropriately. In addition to that, this study aimed to monitor
pre-service teachers‘ progress in the final two years of the teacher education programs. Accordingly, 3rd grade students
were included as the subject of the study.
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
3
Table 1. Frequency Distribution of the Sample Group According to the Identified Variables (Actual Application)
Variable Groups Descriptive Data F %
Gender Female 480 77.4 Male 140 22.6
Department
Classroom Teaching 138 22.3 Preschool Teaching 174 28.1 Mathematics Teaching 65 10.5 Science Teaching 100 16.2 Social Sciences Teaching 70 11.2 Turkish Language Teaching 73 11.7
Grade Level 3rd Grade 375 60.4 Senior 245 39.6
Grand Total 620 100
Disproportionate stratified sampling method was run during the phase of actual application. The number of population
was determined as 2918, whereas the number of sample group was calculated as 339 people (Balcı, 1995, p.111).
However, the number of the sample group was increased to reach more reliable results and thus data collection involved
the participation of 620 people.
2.3 Data Collection Tools
―The Competency Scale for Lesson Planning‖ utilized in the study was developed by the researcher to identify pre-service
teachers‘ competencies in lesson planning. 20 teachers who have been working in public and private schools for minimum
3 years and maximum 17 years were asked to answer following open-ended questions: ―What are your opinions and
thoughts on your theoretical knowledge on lesson planning, instructional program elements and the significance of the
relation among these elements, the problems that you encounter during the implementation of a lesson plan and the
necessity of lesson planning?‖. In view of the pre-service teachers‘ answers, potential scale items sentences were
discarded. Having performed reliability and validity analysis, the initial 34 item-scale were reduced to 23 item-scale with
two sub-dimensions. Measuring competency level of teachers or pre-service teachers in lesson planning , the scale
consisted of two sub-dimensions, namely, theoretical competency (item 1, 3, 4, 5, 6, 7, 13, 16, 18, 22 and item 23) and
practical competency (item 2, 8, 9, 10, 11, 12, 14, 15, 17, 19, 20 and item 21.
Kline (1994) argues that considering the item number or factor number in the measurement tool of the sample size, the
sample size can be 10 times greater than item number during the phase of the scale development process (Cited in: Çokluk,
Şekercioğlu & Büyüköztürk, 2012). Therefore, data were collected through 241 teachers working as
classroom (N=92), preschool (N=48), science (N=30), social (N=22), mathematics (N=18) and Turkish
language (N=31) teachers at public and private schools in the province of Denizli. Afterwards, reliability analysis of
factor analysis and pilot study were performed.
Table 2. Reliability Coefficients of the Scale and its sub-dimensions
Cronbach Alpha Values Factors Actual
Application Pilot Application
1. Theoretical Competency Sub-dimension .812 .778 2. Practical Competency Sub-dimension .886 .792 Grand Total .867 .782
It was underlined that a reliability value of 0.60 was required for preliminary studies, 0.80 for fundamental studies and
between 0.90 and 0.95 for practical studies. On the other hand, the reliability coefficients values concerning the social
sciences differ according to the research type, a reliability value of 0.70 for scientific-based studies is required and studies
where ability, skills and interest are needed require a reliability coefficient level of 0.85. (Şencan, 2005).According to the
reliability analysis of the pilot study where all items were included, Cronbach Alpha value was found to be .782, whereas
the results of the reliability analysis of the actual study indicated a Cronbach Alpha value with .867. We can thus contend
that the scale can be used as a reliable measurement tool. On the other hand, given the reliability coefficients of the
sub-dimensions, we can generally imply that reliable coefficients were obtained from the sample group.
2.4 Data Analysis
Each item in the draft scale was first transformed into computer according to 214 pre-service teachers‘ responses and both
each item and total scores of the pre-service teachers were calculated. Explanatory Factor Analysis (EFA) was utilized for
structural validity. Confirmatory factor analysis (CFA) was performed to see the fit indices of the factors identified. The
suitability of the data for factor analysis and sample size was determined by running the Kaiser-Meyer-Olkin and Bartlett‘s
Test of Sphericity. The suitability of the data for factor analysis was tested through anti-image correlation matrix.
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
4
The Kolmogorov-Smirnov test was performed to evaluate the normality of the variables. The distribution of the variables
identified was evaluated and afterwards it was agreed on which parametric or non-parametric test would be applied. Lastly,
alongside descriptive statistics, arithmetic mean and standard deviation was used to identify digital citizenship levels of
the teacher candidates.
3. Findings
In attempt to seek answers to the sub problems posed in the study, a series of analyses conducted and findings of these
analyses were presented in this section.
3.1 Factor Analysis Values of the Competency Scale for Lesson Planning
Initially, factor analysis was performed using anti-image correlation matrix. The diagonal of anti-image correlation matrix
should be greater than .50 (Can, 2014). Items showing a correlation of less than .50 were removed from the survey. The
remaining items were subjected to factor analysis. In light of the anti-image correlation matrix results shown in Table 3, it
is seen that the diagonal values vary between .530 (9th item) and .920 (3rd item).
Table 3. Anti-Image Correlation Matrix
Item
1
Item
2
Item
3
Item
4
Item
5
Item
6
Item
7
Item
8
Item
9
Item
10
Item
11
Item
12
Item
13
Item
14
Item
15
Item
16
Item
17
Item
18
Item
19
Item
20
Item
21
Item
22
Item
23
I1
.62
5
.12
5
.22
5
.35
2
.44
5
.30
2
.12
5
.26
3
.10
3
.42
2
.08
8
.03
6
.12
0
.33
2
.25
2
.00
7
.12
5
.44
2
.43
6
.20
3
.07
7
.14
5
.12
6
I2
.15
6
.73
5
.24
0
.32
5
.21
4
.12
5
.00
8
-,07
7
-,21
5
-,15
6
,01
9
,07
2
,03
2
-,08
4
-,11
2
,09
6
-,07
0
,06
6
,10
2
-,16
6
-,14
7
,12
8
-,34
5
I3
,28
4
-,16
6
.92
0
,13
7
,00
5
-,27
5
-,03
5
-,22
9
-,111
,33
1
,10
7
-,11
4
-,04
8
-,15
3
,00
8
-,02
6
-,12
4
,04
6
-,18
4
-,14
9
-,20
6
,00
2
-,03
9
I4
-,18
1
,00
2
-,27
4
.69
9
-,08
7
,02
0
-,13
1
,34
9
,03
4
-,40
4
,15
6
-,00
2
-,211
,07
1
-,17
1
,12
9
-,06
1
-,07
4
,21
6
,05
1
-,10
3
-,05
4
,12
4
I5
,02
0
-,23
0
,03
0
-,06
0
.58
5
,01
2
-,14
9
-,08
7
-,20
5
,05
9
-,29
5
,38
3
,07
8
-,02
5
,05
0
,14
1
-,06
8
-,07
7
-,22
9
-,27
0
-,24
8
,13
9
-,12
8
I6
,14
6
-,06
0
-,06
3
-,02
4
-,18
1
.87
8
,05
1
,03
6
-,11
3
,00
2
-,23
0
-,06
0
-,04
9
,17
6
-,20
6
,06
2
-,13
0
-,05
0
,16
0
,12
3
,17
1
-,00
1
-,10
6
I7
,08
0
-,04
9
,12
8
-,11
3
,00
2
-,23
0
.63
3
-,31
6
,21
0
-,27
4
,03
0
-,06
3
,12
8
-,00
3
-,42
3
,28
4
-,16
6
-,14
9
-,00
1
-,07
8
-,02
0
-,11
4
,01
6
I8
,05
0
,14
1
,01
4
-,4
23
,28
4
-,1
66
-,1
04
.78
9
-,1
30
-,0
50
,03
3
-,2
31
-,3
00
-,0
59
-,2
85
-,0
87
,23
6
,01
4
,17
6
-,0
88
,00
0
,05
4
,01
2
I9
,16
0
-,0
01
-,0
61
,05
6
-,0
31
-,1
47
,21
0
,08
7
.53
0
,05
6
-,0
31
-,0
67
,18
5
,02
9
,12
0
-,0
47
,03
1
-,0
54
-,2
06
,35
9
,02
8
,00
0
-,1
49
I10
,23
2
-,2
67
,18
0
-,1
32
,00
1
,12
8
-,0
78
-,0
20
-,11
4
.90
3
24
8
-,1
98
-,3
41
-,0
13
-,2
14
,00
6
-,0
64
,06
0
,06
2
-,3
16
,00
3
-,1
66
,20
2
I11
-,1
84
,20
7
-,1
06
,12
0
,15
9
-,3
45
,01
6
-,3
44
,15
5
-,2
70
.56
0
,23
0
,12
9
,14
1
-,0
01
-,2
67
,20
7
-,0
87
-,0
47
,33
1
-,4
04
,05
9
-,0
89
I12
-,11
2
,09
6
-,31
8
,11
4
-,00
5
,35
9
-,05
9
,15
4
-,27
9
,00
2
,22
4
.63
1
-,15
2
,01
4
-,06
1
,18
0
-,10
6
,23
6
,03
1
,10
7
,15
6
-,29
5
,06
6
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
5
I13
,00
8
-,02
6
,06
8
-,06
0
,03
6
-,31
6
-,06
8
-,07
7
-,22
9
,34
9
-,08
7
,02
0
.83
7
,03
6
-,11
3
,08
0
,01
4
-,05
4
,06
0
-,11
4
-,00
2
,38
3
-,04
4
I14
,00
3
,08
7
-,02
8
-,05
1
-,18
2
,17
5
,08
2
,05
6
-,03
1
-,14
7
-,20
6
-,10
3
-,16
6
.74
8
-,08
4
-,04
9
,17
6
-,20
6
,06
2
-,04
8
-,211
,07
8
,23
2
I15
-,16
6
,04
4
,10
4
-,09
2
-,00
9
-,10
6
-,17
2
-,13
2
,00
1
,12
8
,00
2
-,05
4
,01
2
-,14
9
.87
8
-,04
9
,17
6
-,20
6
,06
2
-,15
3
,07
1
-,02
5
-,26
7
I16
-,27
5
,03
2
-,08
4
-,15
3
,07
1
-,02
5
,09
3
-,04
4
-,08
4
-,15
3
-,02
8
-,31
8
,06
4
-,13
8
-,28
1
.89
9
,12
4
-,12
8
-,10
6
-,17
1
,12
9
-,15
2
,18
0
I17
-,03
5
-,08
4
-,11
2
,00
8
-,17
1
,05
0
,16
0
,23
2
-,11
2
,00
8
,00
6
,23
2
,01
4
-,27
2
-,27
4
,03
0
.62
2
-,07
3
,10
4
,05
0
,14
1
,01
4
,14
6
I18
,07
2
-,11
2
,09
6
-,02
6
,12
9
,14
1
-,00
1
-,26
7
,09
6
-,02
6
-,06
4
-,26
4
-,18
9
,27
5
-,02
8
-,05
1
,00
2
.75
2
-,27
0
,16
0
-,00
1
-,06
1
-,06
0
I19
-,10
4
,09
6
-,18
1
,02
0
,14
6
,03
3
,05
1
-,10
3
-,05
4
,11
0
,06
0
,13
4
-,02
8
-,31
8
,10
4
-,09
2
-,11
4
-,04
8
.84
5
-,08
8
,35
9
-,31
6
-,06
3
I20
,11
2
-,31
8
,00
2
-,23
0
-,06
0
-,07
3
-,27
0
-,24
8
,13
9
-,07
8
,06
2
-,13
0
-,05
0
,03
3
-,21
2
-,03
8
-,15
3
,00
8
-,02
6
.56
6
,05
4
,01
2
-,18
2
I21
-,10
6
,11
4
-,27
4
,03
0
-,06
3
-,23
9
,12
3
,17
1
-,00
1
-,02
0
,28
4
-,16
6
-,14
9
,05
1
,31
2
-,33
8
,34
9
,03
4
-,40
4
,15
6
.63
3
-,02
5
,05
0
I22
,13
9
-,00
5
-,02
8
-,05
1
-,18
2
,11
0
-,07
8
-,02
0
-,11
4
-,11
4
-,03
1
-,14
7
-,20
6
-,10
3
-,01
9
-,28
3
-,08
7
-,20
5
,05
9
-,29
5
,23
0
.68
9
-,27
0
I23
-,08
8
,35
9
-,17
1
,05
0
,16
0
-,02
8
,01
6
-,34
4
,15
5
,01
6
,09
1
,12
0
,15
9
-,34
5
-,03
9
,12
4
-,12
8
-,10
6
,01
6
-,10
0
,25
5
-,07
3
.70
3
3.2 Construct Validity of the Measurement Tool (Explanatory Factor Analysis)
The suitability of the data for analysis and sampling adequacy was determined by utilizing the Kaiser-Meyer-Olkin
(KMO) test. The result of our KMO test is .836 and this value shows that the magnitude of the sample can be
characterized as ―excellent‖ for factor analysis and sample adequacy is very high (Kalaycı, 2010 Şencan, 2005; Tavşancıl,
2006). On the other hand, the results of Bartlett‘s test indicate that the chi square value (X2= 6325.880 (p< .01) was
significant. In conclusion, the correlation between variables is high. The test results are presented in Table 4.
Table 4. Kaiser-Meyer-Olkin and Bartlett's Test Results
Kaiser-Meyer-Olkin Measure of Sampling Adequacy 0,836 Bartlett's Test of Sphericity Approx. Chi-Square 6325.880
Degrees of freedom(df) 199 Sig.(p) ,000
*The significance level is taken as p<0.01
The Varimax rotation technique was performed and items with factor loadings lower than .40, items that load on more
than one factor and small items with factor loadings less than 0.10 were extracted from the scale. Bütüner and Gür (2007),
Yavuz (2005), proposed that scale items should not be loaded on more than one factor, the criteria for ideal value
regarding the difference between the factor loadings should be at least 0.10 and items with factor loadings less than 0.10
should be called as similar items.
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
6
Table 5. Factor Loadings of the Competency Scale for Lesson Planning
ITEMS Factors Factors 1 2
Item 3 .712 Item 4 .696 Item 5 .675 Item 6 .633 Item 7 .587 Item 13 .555 Item 16 .522 Item 18 .503 Item 22 .497 Item 23 .466 Item 1 .442 Item 2 .788 Item8 .756 Item 9 .711 Item 10 .657 Item 11 .623 Item 12 .602 Item 14 .574 Item 15 .551 Item 17 .522 Item 19 .498 Item 20 .472 Item 21 .466
As the absolute value below was determined as 0.40, values less than .40 was suppressed in items sorted by
descending. For this reason, factor loadings given in Table 5 refer to only those factor loadings more than 0.40 (Can,
2014). Factor loadings were determined as 0.40 to make scale items more qualified and distinctive.
Figure 1. Line Graph for Eigenvalues
As seen from the Figure 1. Line Graph for Eigenvalues, the scale comprised of 2 factors. Considering the rapid decline
following the first factor, we can contend that the scale has a general factor. Given that the first factor explains 34.489% of
the total variance, this result was confirmed once again. On the other hand, the graphic yielded a horizontal shape after
the second factor and did not show a downward sloping. To conclude, the scale has two-factor structure. Besides, looking
at Table 6, we can understand that factors with eigenvalue greater than 1.00 were taken into account to identify the
numbers of factors.
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
7
Table 6. Factor Eigenvalues of the Competency Scale for Lesson Planning
Fac
tors
(Initial Eigenvalues)
(Extraction Sums of
Squared Loadings)
Descriptive
Statistics
To
tal
% o
f V
aria
nce
Cu
mu
lati
ve
%
To
tal
% o
f V
aria
nce
Cu
mu
lati
ve
%
Su
m o
f F
acto
rs
Fac
tor
Sta
nd
ard
Dev
iati
on
Val
ue
Rel
iab
ilit
y
Co
effi
cien
t
1.Theoretical Competency 3.687 47.658 47.658 9.687 47.658 47.658 61.68 7.254 ,778
2.Practical Competency 1,252 17,958 65.616 5,252 17,958 65.616 31.12 4.325 ,792
The findings obtained from the factor analysis highlighted the presence of two factors with eigenvalues greater than 1.
Therefore, we can determine ―The Competency Scale for Lesson Planning‖ as a two-factor scale. Eigenvalues of these
two factors and their explained variances were shown in Table 6. The factors were named as follows: ―theoretical
competency‖ (11 items) and ―practical competency‖ (12 items). The eigenvalues of these factors, respectively, are 3.687
and 1.252 and accordingly the explanatory factor analysis indicated that these factors explained 47.658% and 17.958%
of the Competency Scale for Lesson Planning, respectively.
The explanatory factor analysis (EFA) results revealed that these extracted two factors explained 65.616% of the total
variance. Şencan (2005) and Can (2014) argued that this variance rate is acceptable. Pearson correlation coefficients were
calculated to investigate the relation of the two factors between each other and with the total scale score and the results are
shown in table 7. Based on the findings presented in Table 7, we see that the relation of the two factors between each other
and with the total scale score was found significant. Depending on the correlation coefficients of the scale, its reliability is
characterized as follows: if it ranges between 0.70 - 1.00, the reliability of the scale is highly reliable; if it ranges between
0.69 - 0.30, the reliability of the scale is moderately reliable; if it ranges between 0.29-0.00, the reliability is low
(Büyüköztürk, 2006).
Table 7. Correlation of the two factors with each other and the total scale
Factors Factor 1 Factor 2 Total
Theoretical competency (F1) *
Practical competency (F2) .758 *
Total .863 .833 *
*All correlations are taken as p< 0.01
According to the correlation analysis of two factors with each other and total scale, the correlation coefficients between
total score and each factors were determined as follows: ―theoretical competency‖ (factor 1) sub-dimension is r= .863;
―practical competency‖ (factor 2) sub-dimension is r=.833. Given that the relation between the two factors in the scale
and total scale is highly significant, this result supports the construct validity of the Competency Scale for Lesson
Planning. The results of the KMO and Bartlett‘s tests were supported as well.
3.3 Language Validity of the Competency Scale for Lesson Planning
The Competency Scale for Lesson Planning is 5-likert scale that consists of 23 items and 2 sub-dimensions. In this
context, theoretical competency sub dimension consist of 11 items and practical competency sub dimension consist of 12
items. The scale was adapted to English language by two-people team. Afterwards, three out of six-people group majored
in English Literature and Language was asked to translate English items to Turkish and the rest of the group were asked to
translate Turkish items to English. As a result of the findings obtained, the scale was finalized in English. Then, English
version of the scale was administrated to 35 students majoring in English Teaching. After 7 days passed, the Turkish
version of the scale was carried out and the relationship between two versions was compared. In light of the data obtained,
significance level was determined using Pearson‘s Product Moment Correlation Coefficient test and the significance level
was calculated as .714.
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
8
Table 8. Explanatory Factor Analysis
Fit Indices Fit Range Research Model Four-Factors Model
Total Fit Index
χ2/sd 0 ≤ χ2/sd ≤ 3 527.35 / 199 = 2.65
Comparative Fit Index NFI .90 ≥ - ≥ .94 .91 NNFI .90 ≥ - ≥ .94 .92 IFI .90 ≥ - ≥ .94 .93 CFI ≥ ,95 .95 RMSEA 0.05 ≤ - ≤ 0.08 0.068 Absolute Fit Indices GFI ≥ .90 .92 AGFI ≥ .85 .86 Residual Based Indexes of Compliance
SRMR .06 ≤ - ≤ .08
.063 RMR .077
As seen in Table 8, a confirmatory analysis was performed to test the reliability of the two sub-dimensions identified
through explanatory factor analysis. The results of CFA indicated that chi-square was (χ²=527.35), degree of freedom
(df=199, p=0.00) was χ²/df=2.65; SRMR= .063, RMR=.077; AGFI= .86; GFI=.92; RMSEA= 0,068, CFI=.95,
NNFI=.92, NFI=.91, IFI=.93. CFA revealed that χ2 /df ratio is lower than 3. Other goodness for fit indices computed by
CFA was: IFI= .90 ≥ - ≥ .94, NFI = .90 ≥ - ≥ .94., NNFI =.90 ≥ - ≥ .94, CFI= ≥ ,95, RMSEA= 0.05 ≤ - ≤ 0.08 and
GFI= ≥ .90 AGFI =≥ .85 and lastly SRMR and RMR = .06 ≤ - ≤ .08. Consequently, the values mentioned above indicate
acceptable fit (Şimşek, 2007; Yılmaz and Çelik, 2009).
3.4 Pre-service Teachers’ Competencies in Lesson Planning
The second sub-problem of the research seeks to the following question ‗What is the competency level of the pre-service
teachers in lesson planning?‘ using the Competency Scale for Lesson Planning. Correspondingly, arithmetic mean and
standard deviation values were tabulated in Table 9.
Table 9. The Competency Levels of the Sample Group in Lesson Planning
No N Xort Ss Frequency Level No N Xort Ss Frequency Level I 3 620 4.69 .878 Agree Strongly I 8 620 4.11 .683 Agree I 6 620 4.67 .585 Agree Strongly I 12 620 4.08 .603 Agree I 13 620 4.64 .789 Agree Strongly I 20 620 4.00 .669 Agree I 16 620 4.56 .652 Agree Strongly I 19 620 3.92 .793 Agree I 1 620 4.53 .874 Agree Strongly I 17 620 3.81 .766 Agree I 22 620 4.52 .745 Agree Strongly I 11 620 3.78 .489 Agree I 4 620 4.50 .653 Agree Strongly I 15 620 3.76 .610 Agree I 23 620 4.44 .604 Agree Strongly I 9 620 3.76 .558 Agree I 18 620 4.42 .701 Agree Strongly I 21 620 3.71 .781 Agree I 7 620 4.33 .556 Agree Strongly I 10 620 3.68 .668 Agree I 5 620 4.30 .457 Agree Strongly I 14 620 3.67 .853 Agree I 2 620 4.27 .417 Agree Strongly
An inspection of the data in the table 9 reveals that the lowest mean value is ―item 3‖ (Xort = 4.69), and the highest is ―item
14‖ (Xort = 3.67) in the 23 item-scale. It is also understood that, arithmetic mean of the participation levels in the opinions
on the first 12 items is ― Strongly agree‖ and ― Agree‖ for the remaining 11 items. The arithmetic average of all items is
at ―Agree‖ level (Xort =4.18). The most striking result of the second sub-problem of the research is that the first 11 items
measure the sub-dimension of theoretical competency.
It is seen that the mean rank of the items is distributed in a narrow range, namely, between 3.67 and 4.69. It is thus
observable that pre-service teachers‘ opinions on lesson planning competency are close to each other. To understand it
more clearly, the graphic is illustrated in Figure 2.
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
9
Figure 2. Competency Levels of Preparing Lesson Plan
3.5 The Significance Level of the Pre-service Teachers’ Competencies in Lesson Planning with respect to the Variables
Identified
The third sub-problem of the research seeks to the following question ‗Do pre-service teachers‘ competency levels in
lesson planning significantly vary according to gender, department, and grade level variables?‖. Accordingly, the
normality test was applied to the research variables to find out how they were distributed.
Table 10. The Kolmogorov-Smirnov Test Administrated to the Variables Identified
Normality Test
Kolmogorov-Smirnov Statistic Degree of Freedom Level of Significance
Gender .411 755 .000 Department .305 755 .000 Grade Level .286 755 .000
Kolmogorov-Smirnov (K-S) test is used to determine whether sample data is normally distributed. If the test indicates
normality, parametric tests are performed, otherwise non-parametric tests are used. Non-parametric test is used when ―p‖
value is significant at 0.05. If the significance level is p<0.05, then parametric test is employed (Can, 2014, p.89). Thus,
Kolmogorov-Smirnov test was conducted and the significance level of the test was found .05 according to all variables
identified. Then, non-parametric tests were utilized. Mann Whitney U test was first used to determine if the gender
variable had a significant effect on the competency levels of the pre-service teachers in lesson planning.
Table 11. Significance Level of the Pre-Service Teachers‘ Competency Levels in Lesson Planning on the ―Gender‖
Variable
Gender N Mean Ranks Sum Total U Z P Theoretical Competency
Female 480 266.42 138741.5 13533.5 -1,205 .014*
Male 140 260.61 110243.0 Practical Competency
Female 480 239.27 127749.5 10541.5 -1,254 .000*
Male 140 243.00 100521.0 *The significance level is taken as p<0.05
Given the results of Mann Whitney U test, the gender variable leads to statistically significant differences in the two
sub-dimensions. Comparing the mean rank scores between female and male students as to the sub-dimension of theoretical
competency , it is found out that the mean rank of female pre-service teachers is 266.42 (U:13533; Z:-1.205) and the mean
rank of male pre-service teachers is 260.61 (U: 13533; Z:-1.205). With this in mind, we can contend that female pre-service
teachers have higher levels of theoretical competency in lesson planning than male pre-service teachers.
On the other hand, in terms of the sub-dimension of the practical competency, the result found is in favour of male
pre-service teachers. From table 11, we can clearly see that the mean rank of male pre-service teachers is 243.00 (U:
0
0.5
1
1.5
2
2.5
3
3.5
4
4.5
5I 3 I 6
I 13
I 16 I 1
I 22 I 4
I 23
I 18 I 7 I 5 I 2
TOTA
L
I 8
I 12
I 20
I 19
I 17
I 11
I 15 I 9
I 21
I 10
I 14
Qualification Levels of Preparing Lesson Plan
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
10
10541.5; Z: -1.254) and the mean rank of female pre-service teachers is 239.27 (U: 10541.5; Z: -1.254). This finding
indicates that male pre-service teachers have higher levels of practical competency in lesson planning when compared to
female pre-service teachers.
Table 12. The Significance Level of the Pre-service Teachers‘ Competency Levels in Lesson Planning Regarding the
―Department‖ Variable
Departments N
Mean Ranks
df p
Theoretical Competency
Classroom Teaching 138 229.93
3.272 4 .037*
Preschool Teaching 174 221.49 Mathematics Teaching 65 219.73 Science Teaching 100 224.01 Social Sciences Teaching 70 202.96 Turkish Language Teaching 73 213.74
Practical Competency
Classroom Teaching 138 259.49
3.525 4 .201
Preschool Teaching 174 249.48
Mathematics Teaching 65 255.40 Science Teaching 100 241.67 Social Sciences Teaching 70 248.78 Turkish Language Teaching 73 245.96
*The significance level is taken as p<0.05
The second sub-problem of the research examined whether the department variable had a significant effect on pre-service
teachers‘ competencies in lesson planning and the results were presented in Table 13. As a consequence, a significant level
of .05 were detected between at least two groups (=3.272; df: 4; p=.037) only as to the sub-dimension of theoretical
competency. Afterwards, Dunnett-C analysis multi-comparison test was run to identify significant differences between
the groups. Dunnett-C multiple comparison test (Post-Hoc), which can be used for non-parametric variables or when the
variances are not equal, is based on average mean rank and q –distribution. (Gunlu, 2016).
Table 13. Dunnett - C Test for the ―Department‖ Variable
Cla
ssro
om
T
each
ing
Pre
sch
oo
l T
each
ing
Mat
hem
atic
s T
each
ing
Sci
ence
Tea
chin
g
So
cial
S
cien
ces
Tea
chin
g
Tu
rkis
h
Lan
gu
age
Tea
chin
g
Classroom Teaching * * * * * Preschool Teaching * Mathematics Teaching * Science Teaching * Social Sciences Teaching * Turkish Language Teaching *
As a result of the Dunnet-C analysis, significant differences between the classroom teaching pre-service teachers
and pre-services teachers majoring in all other departments in the sample group were found. Mann Whitney U test was
employed to identify significant differences between classroom teaching group and other groups. The results are detailed
in Table 14.
Table 14. Mann Whitney U Test Applied To the Groups within ―Departments‖ Variables
Departments N Mean Rank Sum of Ranks U Z p Classroom Teaching 138 248.05 2779.5
525.500 -1.145 .005* Preschool Teaching 174 241.56 2566.5 Classroom Teaching 138 236.65 2689.5
469.200 -1.587 .002* Mathematics Teaching 65 234.14 2599.0 Classroom Teaching 138 239.77 2698.4
488.630 -1.263 .012* Science Teaching 100 236.41 2100.5 Classroom Teaching 138 240.78 2564.7
500.474 -.1.006 .009* Social Science Teaching 70 235.55 2690.3 Classroom Teaching 138 241.66 2145.0
511.648 -1.638 .042* Turkish Language Teaching 73 237.98 2296.0
*The significance level is taken as p<0.05
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
11
The research findings lead us to a striking result. As known, Mann Whitney U test was applied to all departments. As
shown in table 14, mean ranks of the all items obtained through Mann Whitney U analysis yielded significant difference
in favour of classroom teaching group. We can thus contend that classroom teaching pre-service teachers demonstrate
higher levels of theoretical competency in lesson planning than other pre-service teachers from other departments.
Table 15. The Significance Level of the Pre-service Teachers‘ Competency Levels in Lesson Planning Regarding the
―Grade‖ Variable
Grade N Mean Rank Sum Of Ranks U Z P Theoretical Competency
3rd Grade 375 301.45 178691.5 11253.5 -1,669 .011*
4th Grade 245 307.69 160128.0 Practical Competency
3rd Grade 375 298.58 15699.5 13651.5 -1,754 .001*
4th Grade 245 306.57 113511.0 *The significance level is taken as p<0.05
Given the data tabulated in Table 15, we see significant differences between two sub-dimensions. Concordantly, the mean
rank of senior pre-service teachers in the sub-dimension of theoretical competency was calculated as 307.69 (U:11253.5;
Z:-1.669), whereas the mean rank of 3rd grade pre-service teachers was calculated as 301.45 (U:11253.5; Z:-1.669).
Similarly, the mean rank of senior pre-service teachers in the sub-dimension of practical competency was calculated as
306.57 (U:13651.5; Z:-1.754), whereas the mean rank of 3rd grade pre-service teachers was calculated as 298.58 (U:
13651.5; Z:-1. 1.754). Consequently, we can interpret that senior pre-service teachers have higher levels of theoretical and
practical competency in lesson planning than 3rd grade pre-service teachers.
4. Discussion and Suggestions
This study sought to identify the competency levels of 3rd year and senior pre-service teachers from the Faculty of
Education in preparing a lesson plan. According to the regulations of the Ministry of National Education, teachers are
responsible for preparing a daily lesson plan in the 2018-2019 academic year. For that reason, the present study is of vital
importance. In light of the observations made and expert opinions of faculty members teaching lesson planning, the study
revealed that pre-service teachers‘ competency level in lesson planning were not satisfactory. Also, public and private
sector teachers‘ responses to open-ended questions demonstrated that teachers‘ theoretical and practical skills in lesson
planning were not reliable. In this respect, the competency scale for lesson planning was developed to identify both
pre-service teachers‘ and teachers‘ weaknesses in lesson planning and to contribute to the literature and future researches.
Previous researches denoted that preparing lesson plan will highly contribute to teachers‘ instructional process and
academic achievement (Zahorik 1970, Freiberg and Driscoll, 1992; Küçükahmet, 1999; Bilen 2002; Ercoşkun, Nalçacı,
Kılıç, 2004; Kara and Koca, 2004; Demirel, 2006; Haşlaman, Mumcu, Uslue, 2010; Kablan, 2012).
When it comes to the sub-problem, mean ranks of the scale were evaluated and the competency levels of the pre-service
teachers in lesson planning were analyzed. Correspondingly, mean scores were categorized from the highest to the lowest. The
most striking result thus is that the first 11 items were related with theoretical competency sub-dimension, whereas the
remaining 12 items were related with practical competency sub-dimension. We therefore can argue that pre-service teachers
perceive themselves competent in lesson planning in terms of theory. To put it differently, we can interpret that pre-service
teachers can easily prepare a lesson plan in theory when asked to do it, while they barely apply a lesson plan in practice. Bearing
in mind that Senemoglu (2005) highlights through a planned instructional process, teachers will feel self-confident and easily
handle unexpected occasions in the classroom environment by behaving calm and easy, creating environments where
pre-service teachers can realize their planned instructional program will highly contribute to raise more qualified teachers.
The literature review indicates that few studies have examined teachers or pre-service teachers‘ competencies in lesson planning,
which increases the importance of the study. For that reason, the current study attempted to identify whether service teachers‘
competencies in lesson planning significantly differentiate by various variables so that an in-depth appreciation of the study was
targeted. Thus, gender, department and grade level variables were included and a series of tests were conducted. As a result, it
was found out that these three variables had some effects on pre-service teachers‘ competencies in lesson planning.
Looking at gender variable, we can see that female students are more competent than male students with respect to the
sub-dimension of theoretical competency. However, male students were more competent than female students in
practicing lesson plan. A close attention should be paid to this finding. In particular, faculty members who deliver lesson
planning and implementation courses should monitor pre-service teachers more carefully and help both female and male
students overcome their weakness in theory and practice so that a balance between female and male students can be
achieved. In this sense, the causes of this outcome should be examined meticulously.
In terms of the grade level variable, it was detected that senior pre-service teachers had higher levels of competency in the
sub-dimensions of theoretical and practical Competency when compared to 3rd grade pre-service teachers. The underlying
reason of it was that senior pre-service teachers had been taught teaching practice. Additionally, teaching practice course
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
12
involves gains regarding the lesson plan preparation and implementation and pre-service teachers experience actual teaching
in actual classroom environment which clearly explained why senior pre-service teacher had higher levels of
competency. Baum and King (2006) assert that high quality teaching practice will foster collaborations between faculties and
the schools, encourage cooperation and active learning among students, improve active learning, yield helpful feedbacks,
equip with time management skills, increase their expectations and enable students to explore different ways of learning. A
number of other studies also reveal that teaching practice courses provide a positive contribution to pre-service teachers‘
lesson planning skills (Kiraz 2002; Karamustafaoğlu and Akdeniz, 2002; Azar, 2003; Şişman and Acat, 2003; Özbek and
Aytekin,2003; Hascher, Cocard and Moser, 2004; Dallmer, 2004; Gökçe and Demirhan, 2005).
According to Bolat (2007) and Süral & Dedebali (2018), pre-service teachers‘ knowledge and skills on curriculum
literacy should be identified so that they adopt a curriculum-based approach for their class activities. In this sense,
curriculum literacy plays a significant role in educating pre-service teachers and improving their competency in teaching.
That is to say, pre-service teachers should be equipped with curriculum components. Therefore, they can develop
enhanced literacy skills. According to Konyalıoğlu and Işık‘s experimental study (2003), the group who were taught with
a lesson plan showed statistically higher success in learning when compared those who were not taught with a lesson plan.
The mentioned study emphasized that lesson plan preparation increases the quality of teaching and positively contribute
to students‘ academic achievements. Each and every pre-service teacher should know how to organize a lesson plan and
has the awareness on the importance of the lesson planning. In a nutshell, individuals should be competent in preparing a
lesson plan, in other words, their academic background should be education majors.
References
Azar, A. (2003). Reflections of views on school experience and teaching practice, Milli Eğitim Dergisi, 159.
Balcı, A. (1995). Research methods, techniques and principles in social sciences, Ankara: Pegem Yayıncılık.
Baum, A. C., & King, M. A. (2006). Creating a climate of self-awareness in early childhood teacher preparation
programs. Early Childhood Education Journal, 33(4), 217-222. https://doi.org/10.1007/s10643-005-0050-2
Beeth, M. E., & Adadan, E. (2006). The influences of university-based coursework on field experience. Journal of
Science Teacher Education, 17(2), 103-120. https://doi.org/10.1007/s10972-006-9013-8
Bilen, M. (2002). Teaching from Plan to Application. 6. Basım, Ankara:Anı Yayıncılık.
Bolat, Y. (2017). The concept of education program literacy and education program literacy scale. Electronic Turkish
Studies, 12(18). https://doi.org/10.7827/TurkishStudies.12103
Bütüner, Ö. S., & Gür, H. (2007). Developing an attitude scale for V diagram, Milli Eğitim Dergisi, 176 (1), 72–85.
Büyüköztürk, Ş. (2006). Data analysis for Social Sciences. Ankara: Pegem A Yayıncılık.
Can, A. (2014). Quantitative data analysis in scientific research process with SPSS. Ankara: Pegem A Yayıncılık.
Dallmer, D. (2004). Collaborative relationships in teacher education: A personal narrative of conflicting
roles. Curriculum Inquiry, 34(1), 29-45. https://doi.org/10.1111/j.1467-873X.2004.00279.x
Demirel, Ö. (1999). The Art of Teaching from Planning to Evaluation. Ankara, Pegema Yayıncılık.
Driscoll, A., & Freiberg, J. H. (1992). Universal teaching strategies.
Gökçe, E. (2005). Teacher Candidates and Supervising Teachers‘ Opinions about Activities of Teaching Practice in
Elementary Schools. Ankara üniversitesi eğitim bilimleri fakültesi Dergisi, 38(1), 43-72.
Goodlad, J. (1991). Why we need a complete redesign of teacher education. Educational Leadership, 49, 4–6.
Günlü, Z. (2016). Comparing of Some Multiple Comparision Test in the Dam‘s Age and Enterprises Effects on Growth
Rate of Hair Goat Kids, (yayımlanmamış yüksek lisans tezi), Selçuk Üniversitesi Sağlık Bilimleri Enstitüsü,
Konya.
Hascher, T., Cocard, Y., & Moser, P. (2004). Forget about theory—practice is all? Student teachers' learning in
practicum. Teachers and teaching, 10(6), 623-637. https://doi.org/10.1080/1354060042000304800
Haşlaman, T., Mumcu, F. K., & Usluel, Y. K. (2010). The Integration of Information and Communication Technologies
in Learning and Teaching Process: A Lesson Plan Example. Eğitim ve Bilim, 32(146), 54-63.
Kablan, Z. (2012). The Effects of Level of Cognitive Learning and Concrete Experience on Teacher Candidates‘ Lesson
Planning and Application Skills, Education and Science, 37(163), 239-253.
Kalaycı, Ş. (2010). Factor Analysis SPSS Applied Multivariate Statistical Techniques. (Edt: Ş. Kalaycı) Ankara: Asil
Yayın Dağıtım.Kara, Y., & Özgün-Koca, S. A. (2004). Learning through discovery and application of meaningful
learning approaches in mathematics courses: Two lesson plans on "squaring the sum of two terms. İlköğretim
online, 3(1).
Journal of Education and Training Studies Vol. 7, No. 3; March 2019
13
Karamustafaoğlu, O., & Akdeniz, A. R. (2002). Ability to reflect the expected behavior of pre-service physics teachers
in practice schools. V. Ulusal Fen Bilimleri ve Matematik Eğitimi Kongresi, 1, 456-769.
Kılıç, D., Nalçacı, A., & Ercoşkun, H. (2004). Plans and problems encountered in primary education. XΙΙΙ. Ulusal
Eğitim Bilimleri Kurultayı, 6-9.
Kiraz, E. (2002). The function of practice teachers in pre-service professional development of pre-service
teachers. Eğitim Bilimleri ve Uygulama, 1(2), 183-196.
Konyalıoğlu, A. C.; Konyalıoğlu, S., & Işık, A. (2002). On Planned Education in Mathematics Courses. Kastamonu
Eğitim Dergisi. 10(2), 351-358.
Küçükahmet, L. (2003). Planning and Evaluation in Teaching, Nobel Yayın, Ankara.
Meade, E. (1991). Reshaping the clinical phase of teacher preparation. Phi Delta Kappan, 72, 666– 669.
Millî Eğitim Bakanlığı (2018). Directive on the Implementation of Training and Training Activities. Tebliğler Dergisi,
Ağustos 2018.
Özbek, T. Z., & Aytekin, F. (2003). A research on views of prospective teachers about teaching profession and
satisfaction of the students from teaching practice. Journal of Contemporary Education, 284, 31-39.
Peker, M. (2009). Opinions of prospective mathematics teachers about extended micro teaching experiences. Türk
Eğitim Bilimleri Dergisi, 7(2), 353-376.
Roth, W. M., & Tobin, K. (2001). Learning to teach science as practice. Teaching and Teacher Education, 17, 741-762.
https://doi.org/10.1016/S0742-051X(01)00027-0
Sachs, J. (1997). Revisioning teacher education, Unicorn, 23, 46–56.
Şencan, H. (2005). Reliability and validity in social and behavioral measurements. Ankara: Seçkin Yayıncılık.
Senemoğlu, N. (2003). Development Learning and Teaching From Theory to Practice. Ankara, Gazi Kitabevi.
Senemoğlu, N. (2005). Development Learning and Teaching From Theory to Practice, Gazi Kitabevi, Ankara.
Şimşek, Ö. (2007). Development of Marmara learning styles scale and examination of learning styles of 9-11-year-old
children. Yayınlanmamış Doktora Tezi. İstanbul: İstanbul Üniversitesi.
Şişman, M., & Acat, M. B. (2003). The effect of teaching practice studies on the perception of teaching
profession. Fırat Üniversitesi Sosyal Bilimler Dergisi, 13(1), 235-250.
Sönmez, V. (2005). The Book of Curriculum Development. Ankara, Anı Yayıncılık.
Sönmez, V. (2017). Teaching Principles and Methods. Ankara, Anı Yayıncılık.
Sumpter, R. D. (1995). Expanding field experiences: Reality, results, and revision. Teacher Educator, 30, 6–15.
https://doi.org/10.1080/08878739509555089
Sural, S., & Dedebali, N. C. (2018). A Study of Curriculum Literacy and Information Literacy Levels of Teacher
Candidates in Department of Social Sciences Education. European Journal of Educational Research, 7(2),
303-317.
Tan, Ş., Kayabaşı, Y., & Erdoğan, A. (2002). Planning and Evaluation of Teaching, Anı Yayıncılık, Ankara.
Tavşancıl, E. (2006). Measurement of attitudes and data analysis with SPSS. (3. Baskı). Ankara: Nobel Yayınları.
Tigchelaar, A., & Korthagen, F. (2004). Deepening the exchange of student teaching experiences: Implications for the
pedagogy of teacher education of recent insights into teacher behaviour. Teaching and Teacher Education, 20(7),
665-679. https://doi.org/10.1016/j.tate.2004.07.008
Vural, B. (2006). Education - Planning in Education - Measurement and Strategies. İstanbul, Hayat Yayınları.
Yavuz, S. (2005), Developing a technology attitude scale for pre-service chemistry teachers, The Turkish Online Journal
of Educational Technology, 4(1).
Yılmaz, V., & Çel k, H. E. (2009). Structural Equation Modeling with LISREL. Ankara: Pegem Akademi; 53- 61.
Zahorik, J. A. (1970). The effect of planning on teaching. The Elementary School Journal, 71(3), 143-151.
https://doi.org/10.1086/460625
Copyrights
Copyright for this article is retained by the author(s), with first publication rights granted to the journal.
This is an open-access article distributed under the terms and conditions of the Creative Commons Attribution license
which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly
cited.